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Stimulation of the hepatoportal nerve plexus with focused ultrasound restores glucose homoeostasis in diabetic mice, rats and swine.

Authors :
Cotero, Victoria
Cotero, Victoria
Graf, John
Miwa, Hiromi
Hirschstein, Zall
Qanud, Khaled
Huerta, Tomás S
Tai, Ningwen
Ding, Yuyan
Jimenez-Cowell, Kevin
Tomaio, Jacquelyn N
Song, Weiguo
Devarajan, Alex
Tsaava, Tea
Madhavan, Radhika
Wallace, Kirk
Loghin, Evelina
Morton, Christine
Fan, Ying
Kao, Tzu-Jen
Akhtar, Kainat
Damaraju, Meghana
Barenboim, Linda
Maietta, Teresa
Ashe, Jeffrey
Tracey, Kevin J
Coleman, Thomas R
Di Carlo, Dino
Shin, Damian
Zanos, Stavros
Chavan, Sangeeta S
Herzog, Raimund I
Puleo, Chris
Cotero, Victoria
Cotero, Victoria
Graf, John
Miwa, Hiromi
Hirschstein, Zall
Qanud, Khaled
Huerta, Tomás S
Tai, Ningwen
Ding, Yuyan
Jimenez-Cowell, Kevin
Tomaio, Jacquelyn N
Song, Weiguo
Devarajan, Alex
Tsaava, Tea
Madhavan, Radhika
Wallace, Kirk
Loghin, Evelina
Morton, Christine
Fan, Ying
Kao, Tzu-Jen
Akhtar, Kainat
Damaraju, Meghana
Barenboim, Linda
Maietta, Teresa
Ashe, Jeffrey
Tracey, Kevin J
Coleman, Thomas R
Di Carlo, Dino
Shin, Damian
Zanos, Stavros
Chavan, Sangeeta S
Herzog, Raimund I
Puleo, Chris
Source :
Nature biomedical engineering; vol 6, iss 6, 683-705; 2157-846X
Publication Year :
2022

Abstract

Peripheral neurons that sense glucose relay signals of glucose availability to integrative clusters of neurons in the brain. However, the roles of such signalling pathways in the maintenance of glucose homoeostasis and their contribution to disease are unknown. Here we show that the selective activation of the nerve plexus of the hepatic portal system via peripheral focused ultrasound stimulation (pFUS) improves glucose homoeostasis in mice and rats with insulin-resistant diabetes and in swine subject to hyperinsulinemic-euglycaemic clamps. pFUS modulated the activity of sensory projections to the hypothalamus, altered the concentrations of metabolism-regulating neurotransmitters, and enhanced glucose tolerance and utilization in the three species, whereas physical transection or chemical blocking of the liver-brain nerve pathway abolished the effect of pFUS on glucose tolerance. Longitudinal multi-omic profiling of metabolic tissues from the treated animals confirmed pFUS-induced modifications of key metabolic functions in liver, pancreas, muscle, adipose, kidney and intestinal tissues. Non-invasive ultrasound activation of afferent autonomic nerves may represent a non-pharmacologic therapy for the restoration of glucose homoeostasis in type-2 diabetes and other metabolic diseases.

Details

Database :
OAIster
Journal :
Nature biomedical engineering; vol 6, iss 6, 683-705; 2157-846X
Notes :
application/pdf, Nature biomedical engineering vol 6, iss 6, 683-705 2157-846X
Publication Type :
Electronic Resource
Accession number :
edsoai.on1391589729
Document Type :
Electronic Resource